Methane is the main product in the reaction between molecular hydrogen and carbonaceous materials such as char, graphene and graphite.
Examples for new materials such as molecular magnets, coordination polymers as carrier package as well as molecular electronics are featured in this article.
The use of oil sludge in useful materials such as low molecular weight organic compounds and carbon residues helps to solve the problem of its disposal, as does its use in the manufacture of cement and asphalt (Chang et al. 2000).
The recent development of permanently porous organic cages (POCs)—molecules with an intrinsic pore accessible by guest species has demonstrated that molecular materials can compete with extended frameworks, such as metal-organic frameworks and zeolites, in applications as diverse as the separation of gas mixtures and proton conduction.
There are a multitude of polymeric materials such as ultrahigh molecular weight polyethylene, polyether ether ketone, and polycaprolactone, currently utilized in several blood-contacting implantable medical devices such as tissue grafts, coronary and vascular stents, and orthopedic implants.
Molecular aggregates composed of a simple metal complex and a functional polymer can be easily prepared without employing complicated materials such as supra-molecular and hybrid complexes.
For example, embedding molecular-scale computing devices in biological materials such as serum, cells, or tissues could be used to detect, and possibly treat, disease.
As crystalline molecular materials, metal organic frameworks (MOFs) have unique chemical and physical properties, such as ultrahigh porosity, tunable structure, and high thermal and chemical stability.
It is widely used in materials such as GaAs, AlGaAs, InGaAs and InAlAs grown by molecular beam epitaxy (MBE).
